void Box::create(Vector3 origin, float length, float depth, float width)
{
this->center = origin;
this->sizeX = length;
this->sizeY = depth;
this->sizeZ = width;
Vector3 V0(origin.x()-(length/2), origin.y()-(depth/2), origin.z()-(width/2));
Vector3 V1(origin.x()+(length/2), origin.y()-(depth/2), origin.z()-(width/2));
Vector3 V2(origin.x()+(length/2), origin.y()+(depth/2), origin.z()-(width/2));
Vector3 V3(origin.x()-(length/2), origin.y()+(depth/2), origin.z()-(width/2));
Vector3 V4(origin.x()-(length/2), origin.y()-(depth/2), origin.z()+(width/2));
Vector3 V5(origin.x()+(length/2), origin.y()-(depth/2), origin.z()+(width/2));
Vector3 V6(origin.x()+(length/2), origin.y()+(depth/2), origin.z()+(width/2));
Vector3 V7(origin.x()-(length/2), origin.y()+(depth/2), origin.z()+(width/2));
vector<Quadrilateral> Q;
Q.push_back(Quadrilateral(V0,V1,V5,V4));
Q.push_back(Quadrilateral(V2,V3,V7,V6));
Q.push_back(Quadrilateral(V0,V4,V7,V3));
Q.push_back(Quadrilateral(V5,V1,V2,V6));
Q.push_back(Quadrilateral(V1,V0,V3,V2));
Q.push_back(Quadrilateral(V4,V5,V6,V7));
setFaces(Q);
calculateMinMax();
}
/**
* Execute the algorithm.
*/
void SofQW3::exec()
{
MatrixWorkspace_sptr inputWS = getProperty("InputWorkspace");
// Do the full check for common binning
if( !WorkspaceHelpers::commonBoundaries(inputWS) )
{
throw std::invalid_argument("The input workspace must have common binning across all spectra");
}
RebinnedOutput_sptr outputWS = this->setUpOutputWorkspace(inputWS,
getProperty("QAxisBinning"),
m_Qout);
g_log.debug() << "Workspace type: " << outputWS->id() << std::endl;
setProperty("OutputWorkspace", outputWS);
const size_t nEnergyBins = inputWS->blocksize();
const size_t nHistos = inputWS->getNumberHistograms();
// Progress reports & cancellation
const size_t nreports(nHistos * nEnergyBins);
m_progress = boost::shared_ptr<API::Progress>(new API::Progress(this, 0.0,
1.0,
nreports));
// Compute input caches
this->initCachedValues(inputWS);
std::vector<double> par = inputWS->getInstrument()->getNumberParameter("detector-neighbour-offset");
if (par.empty())
{
// Index theta cache
this->initThetaCache(inputWS);
}
else
{
g_log.debug() << "Offset: " << par[0] << std::endl;
this->m_detNeighbourOffset = static_cast<int>(par[0]);
this->getValuesAndWidths(inputWS);
}
const MantidVec & X = inputWS->readX(0);
PARALLEL_FOR2(inputWS, outputWS)
for (int64_t i = 0; i < static_cast<int64_t>(nHistos); ++i) // signed for openmp
{
PARALLEL_START_INTERUPT_REGION
DetConstPtr detector = inputWS->getDetector(i);
if (detector->isMasked() || detector->isMonitor())
{
continue;
}
double theta = this->m_theta[i];
double phi = 0.0;
double thetaWidth = 0.0;
double phiWidth = 0.0;
// Non-PSD mode
if (par.empty())
{
thetaWidth = this->m_thetaWidth;
}
// PSD mode
else
{
phi = this->m_phi[i];
thetaWidth = this->m_thetaWidths[i];
phiWidth = this->m_phiWidths[i];
}
double thetaHalfWidth = 0.5 * thetaWidth;
double phiHalfWidth = 0.5 * phiWidth;
const double thetaLower = theta - thetaHalfWidth;
const double thetaUpper = theta + thetaHalfWidth;
const double phiLower = phi - phiHalfWidth;
const double phiUpper = phi + phiHalfWidth;
const double efixed = this->getEFixed(detector);
for(size_t j = 0; j < nEnergyBins; ++j)
{
m_progress->report("Computing polygon intersections");
// For each input polygon test where it intersects with
// the output grid and assign the appropriate weights of Y/E
const double dE_j = X[j];
const double dE_jp1 = X[j+1];
const V2D ll(dE_j, this->calculateQ(efixed, dE_j, thetaLower, phiLower));
const V2D lr(dE_jp1, this->calculateQ(efixed, dE_jp1, thetaLower, phiLower));
const V2D ur(dE_jp1, this->calculateQ(efixed, dE_jp1, thetaUpper, phiUpper));
const V2D ul(dE_j, this->calculateQ(efixed, dE_j, thetaUpper, phiUpper));
Quadrilateral inputQ = Quadrilateral(ll, lr, ur, ul);
this->rebinToFractionalOutput(inputQ, inputWS, i, j, outputWS, m_Qout);
}
PARALLEL_END_INTERUPT_REGION
}
PARALLEL_CHECK_INTERUPT_REGION
outputWS->finalize();
this->normaliseOutput(outputWS, inputWS);
}
